<p>Results calculated using numerical solutions with <i>R</i><sub>0,<i>w</i></sub> = 1.5 and <i>γ</i><sub><i>w</i></sub> = 0.1 in both panels.</p
<p>Effective reproduction numbers for the observable model and the unobservable model are compared a...
<p>The mean final epidemic size for two coupled cities 〈<i>E</i>〉 is plotted as a function of fracti...
<p>The expected final outbreak size (solid line) and CV in the final outbreak size (dashed line) are...
<p>Dashed lines and shaded area denote the lower 5% and upper 95% of simulated values. Parameter val...
<p>Inset: <i>τ</i> (solid line), the derivative of <i>R</i> (dashed line) and the derivative of <i>V...
<p>The stochastic combined mean final epidemic size 〈<i>E</i>〉 as a function of the fractional alloc...
<p>Lines show the proportion of the host population infected at a particular time, and each panel sh...
<p>Given population density, 60 simulation replicates were run for each vaccination diffusion rate <...
Each region shows the cost-savings realized in a campaign that maintains seroprevalence at the 0.5 h...
<p>Figures A, B, and C illustrate the epidemic size as a function of the number of individuals vacci...
<p>The vaccination thresholds for eliminating the epidemic with respect to different disease reprodu...
Given immunization budget b = 5% of the entire population, for each immunization type, 5000 simulati...
The red dashed line shows the reduction in vaccine baits predicted for a homogeneous population. Oth...
<p>The solid blue line shows the optimal fraction of the available vaccine allocated to the smaller ...
<p>The figure shows the medians of the posterior vaccination coverages versus posterior attack rates...
<p>Effective reproduction numbers for the observable model and the unobservable model are compared a...
<p>The mean final epidemic size for two coupled cities 〈<i>E</i>〉 is plotted as a function of fracti...
<p>The expected final outbreak size (solid line) and CV in the final outbreak size (dashed line) are...
<p>Dashed lines and shaded area denote the lower 5% and upper 95% of simulated values. Parameter val...
<p>Inset: <i>τ</i> (solid line), the derivative of <i>R</i> (dashed line) and the derivative of <i>V...
<p>The stochastic combined mean final epidemic size 〈<i>E</i>〉 as a function of the fractional alloc...
<p>Lines show the proportion of the host population infected at a particular time, and each panel sh...
<p>Given population density, 60 simulation replicates were run for each vaccination diffusion rate <...
Each region shows the cost-savings realized in a campaign that maintains seroprevalence at the 0.5 h...
<p>Figures A, B, and C illustrate the epidemic size as a function of the number of individuals vacci...
<p>The vaccination thresholds for eliminating the epidemic with respect to different disease reprodu...
Given immunization budget b = 5% of the entire population, for each immunization type, 5000 simulati...
The red dashed line shows the reduction in vaccine baits predicted for a homogeneous population. Oth...
<p>The solid blue line shows the optimal fraction of the available vaccine allocated to the smaller ...
<p>The figure shows the medians of the posterior vaccination coverages versus posterior attack rates...
<p>Effective reproduction numbers for the observable model and the unobservable model are compared a...
<p>The mean final epidemic size for two coupled cities 〈<i>E</i>〉 is plotted as a function of fracti...
<p>The expected final outbreak size (solid line) and CV in the final outbreak size (dashed line) are...